Nocturnal swallowing augments arousal intensity and arousal tachycardia

Cortical arousal from sleep is associated with autonomic activation and acute increases in heart rate. Arousals vary considerably in their frequency, intensity/duration, and physiological effects. Sleep and arousability impact health acutely (daytime cognitive function) and long-term (cardiovascular...

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Veröffentlicht in:Proceedings of the National Academy of Sciences - PNAS 2020-04, Vol.117 (15), p.8624-8632
Hauptverfasser: Burke, P. G. R., Carter, S. G., Knapman, F., Patti, J., Butlin, M., Gandevia, S. C., Butler, J. E., Eckert, D. J., Bilston, L. E.
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container_issue 15
container_start_page 8624
container_title Proceedings of the National Academy of Sciences - PNAS
container_volume 117
creator Burke, P. G. R.
Carter, S. G.
Knapman, F.
Patti, J.
Butlin, M.
Gandevia, S. C.
Butler, J. E.
Eckert, D. J.
Bilston, L. E.
description Cortical arousal from sleep is associated with autonomic activation and acute increases in heart rate. Arousals vary considerably in their frequency, intensity/duration, and physiological effects. Sleep and arousability impact health acutely (daytime cognitive function) and long-term (cardiovascular outcomes). Yet factors that modify the arousal intensity and autonomic activity remain enigmatic. In this study of healthy human adults, we examined whether reflex airway defense mechanisms, specifically swallowing or glottic adduction, influenced cardiac autonomic activity and cortical arousal from sleep. We found, in all subjects, that swallows trigger rapid, robust, and patterned tachycardia conserved across wake, sleep, and arousal states. Tachycardia onset was temporally matched to glottic adduction—the first phase of swallow motor program. Multiple swallows increase the magnitude of tachycardia via temporal summation, and blood pressure increases as a function of the degree of tachycardia. During sleep, swallows were overwhelmingly associated with arousal. Critically, swallows were causally linked to the intense, prolonged cortical arousals and marked tachycardia. Arousal duration and tachycardia increased in parallel as a function of swallow incidence. Our findings suggest that cortical feedback and tachycardia are integrated responses of the swallowmotor program. Our work highlights the functional influence of episodic, involuntary airway defense reflexes on sleep and vigilance and cardiovascular function in healthy individuals.
doi_str_mv 10.1073/pnas.1907393117
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G. R. ; Carter, S. G. ; Knapman, F. ; Patti, J. ; Butlin, M. ; Gandevia, S. C. ; Butler, J. E. ; Eckert, D. J. ; Bilston, L. E.</creator><creatorcontrib>Burke, P. G. R. ; Carter, S. G. ; Knapman, F. ; Patti, J. ; Butlin, M. ; Gandevia, S. C. ; Butler, J. E. ; Eckert, D. J. ; Bilston, L. E.</creatorcontrib><description>Cortical arousal from sleep is associated with autonomic activation and acute increases in heart rate. Arousals vary considerably in their frequency, intensity/duration, and physiological effects. Sleep and arousability impact health acutely (daytime cognitive function) and long-term (cardiovascular outcomes). Yet factors that modify the arousal intensity and autonomic activity remain enigmatic. In this study of healthy human adults, we examined whether reflex airway defense mechanisms, specifically swallowing or glottic adduction, influenced cardiac autonomic activity and cortical arousal from sleep. We found, in all subjects, that swallows trigger rapid, robust, and patterned tachycardia conserved across wake, sleep, and arousal states. Tachycardia onset was temporally matched to glottic adduction—the first phase of swallow motor program. Multiple swallows increase the magnitude of tachycardia via temporal summation, and blood pressure increases as a function of the degree of tachycardia. During sleep, swallows were overwhelmingly associated with arousal. Critically, swallows were causally linked to the intense, prolonged cortical arousals and marked tachycardia. Arousal duration and tachycardia increased in parallel as a function of swallow incidence. Our findings suggest that cortical feedback and tachycardia are integrated responses of the swallowmotor program. 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subjects Arousal
Biological Sciences
Blood pressure
Cardiac arrhythmia
Cardiovascular system
Cerebral cortex
Cognitive ability
Defense programs
Heart rate
Physiological effects
PNAS Plus
Reflexes
Respiratory tract
Sleep
Sleep and wakefulness
Swallowing
Tachycardia
Vigilance
title Nocturnal swallowing augments arousal intensity and arousal tachycardia
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